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    • 83. 发明申请
    • LIGHT SOURCE
    • 光源
    • US20100201978A1
    • 2010-08-12
    • US12450402
    • 2008-03-24
    • Masaru HoriHiroyuki KanoShoji Den
    • Masaru HoriHiroyuki KanoShoji Den
    • G01N21/31
    • H05H1/0025G01N21/15G01N21/3103G01N2021/158G01N2201/023G01N2201/0233G01N2201/061
    • To provide a light source which realizes accurate determination of the particle density of a plasma atmosphere without disturbing the state of the plasma atmosphere.The light source of the invention includes a tubular casing 12; a cooling medium passage 30 for causing a cooling medium to flow therethrough, the passage being provided along the inner wall of the casing; a lens 50 provided at a tip end of the casing; a first electrode 44 and a second electrode 45 which are provided in the casing and before the lens so as to be vertical to the axis of the casing and parallel to each other; and an insulating spacer 46 provided between the first electrode and the second electrode. The light source further includes a hole 47 axially penetrating the center portions of the first electrode, the insulating spacer, and the second electrode; and an electric discharge gas passage for introducing an electric discharge gas, along the inner wall of the cooling medium passage, to the back surface of the lens so that the electric discharge gas is reflected by the lens and flows through the hole.
    • 提供一种实现等离子体气氛的粒子密度的精确测定而不干扰等离子体气氛的状态的光源。 本发明的光源包括管状壳体12; 用于使冷却介质流过其中的冷却介质通道30,所述通道沿着所述壳体的内壁设置; 设置在所述壳体的前端的透镜50; 第一电极44和第二电极45,其设置在壳体内并且在透镜之前垂直于壳体的轴线并且彼此平行; 以及设置在第一电极和第二电极之间的绝缘间隔件46。 光源还包括轴向穿过第一电极,绝缘间隔物和第二电极的中心部分的孔47; 以及放电气体通道,用于沿着冷却介质通道的内壁将放电气体引导到透镜的背面,使得放电气体被透镜反射并流过孔。
    • 85. 发明授权
    • Chemical vapor sensor
    • 化学气相传感器
    • US07700044B2
    • 2010-04-20
    • US11033677
    • 2005-01-12
    • David K. LambertLarry M. OberdierChristopher M. Thrush
    • David K. LambertLarry M. OberdierChristopher M. Thrush
    • G01N30/96
    • B82Y30/00B60K28/06G01N1/2214G01N1/405G01N21/0332G01N21/05G01N21/3504G01N33/4972G01N2001/2276G01N2021/158G01N2201/12707G01N2201/12792
    • A chemical vapor sensor is provided that passively measures a chemical species of interest with high sensitivity and chemical specificity. In an aspect, ethanol vapor in a vehicle cabin is measured, and sufficient sensitivity is provided to passively detect a motor vehicle driver that exceeds a legal limit of blood alcohol concentration (BAC), for use with vehicle safety systems. The sensor can be situated in an inconspicuous vehicle cabin location and operate independently without requiring active involvement by a driver. A vapor concentrator is utilized to amplify a sampled vapor concentration to a detectible level for use with an infrared (IR) detector. In an aspect, in comparison to conventional chemical sensors, the sensitivity of detection of ethanol vapor is increased by a factor of about 1,000. Further, a single channel of infrared detection is utilized avoiding spurious infrared absorption and making the chemical vapor sensor less costly to implement.
    • 提供一种化学气相传感器,被动地测量感兴趣的化学物质,具有高灵敏度和化学特异性。 在一方面,测量车厢内的乙醇蒸气,并且提供足够的灵敏度以被动地检测超过合法限制的血液酒精浓度(BAC)的汽车驾驶员,以用于车辆安全系统。 传感器可以位于不显眼的车厢位置,并且独立操作,而不需要驾驶员的积极参与。 采用蒸汽浓缩器将取样的蒸汽浓度放大到可检测的水平以与红外(IR)检测器一起使用。 在一方面,与传统的化学传感器相比,乙醇蒸气的检测灵敏度提高了大约1,000倍。 此外,利用单个红外线检测通道可避免杂散的红外线吸收,并且使化学气相传感器的执行成本更低。
    • 86. 发明申请
    • MOISTURE BARRIER BREATHING DEVICE
    • 水分障碍物呼吸装置
    • US20100071150A1
    • 2010-03-25
    • US12523158
    • 2008-01-17
    • Yefim Kereth
    • Yefim Kereth
    • A47L7/00
    • G02B27/0006B08B1/00B08B1/02B08B3/02B08B5/02G01N21/15G01N2021/151G01N2021/152G01N2021/158
    • A cleaning assembly (2) for an optical device (16) includes a shaft (14) configured for supporting the optical device within an enclosure (4) that is adapted for rotation about the shaft. At least one first sealing element (18) is disposed between the shaft and a mating surface of the enclosure for preventing fluid leakage therethrough. At least one optically transparent window (8) is mounted in association with the enclosure (4), and at least one cleaning element (9, 11) is coupled to the shaft for cleaning a surface of the window (8). The cleaning assembly may include a moisture barrier in the form of a pressure-influenced member (58) such as a bellows (40) having a body of expandable and retractable-volume for containing air that diffuses therein, while equalizing pressure on opposite sides of the barrier.
    • 用于光学装置(16)的清洁组件(2)包括构造成将光学装置支撑在适于绕轴旋转的外壳(4)内的轴(14)。 至少一个第一密封元件(18)设置在所述轴与所述外壳的配合表面之间,以防止流体从其中泄漏。 至少一个光学透明窗口(8)与外壳(4)相关联地安装,并且至少一个清洁元件(9,11)联接到轴上,用于清洁窗口(8)的表面。 清洁组件可以包括受压力构件(58)形式的防潮层,例如波纹管(40),其具有可扩张和缩回体积的主体,用于容纳在其中扩散的空气,同时平衡两侧的压力 屏障。
    • 88. 发明授权
    • Method for reducing condensation water in gas sensor arrangements
    • 减少气体传感器装置中冷凝水的方法
    • US07626168B2
    • 2009-12-01
    • US11166593
    • 2005-06-24
    • Joerg FischerMarco ForlenzaRobert FrodlRudi MinuthKuno StraubThomas Tille
    • Joerg FischerMarco ForlenzaRobert FrodlRudi MinuthKuno StraubThomas Tille
    • G01N21/35
    • G01N21/3504G01N21/15G01N2021/158
    • The present invention relates to a method for measuring the presence and/or the concentration of an analyte by means of a gas sensor arrangement and to a corresponding gas sensor arrangement. The gas sensor arrangement comprises a radiation-emitting radiation source, a gas measuring chamber, which may be filled with a test gas containing at least one analyte to be measured, and at least one radiation-detecting detector device which generates an output signal as a function of the presence and/or the concentration of the analyte. In order to be able to reduce the harmful effects of condensation water, which condenses in the gas measuring chamber, the gas measuring chamber according to the invention is heated before the measurement process, such that the wall of the gas measuring chamber assumes a temperature which lies above the dew point of the test gas.
    • 本发明涉及一种通过气体传感器装置和对应的气体传感器装置来测量分析物的存在和/或浓度的方法。 气体传感器装置包括辐射发射辐射源,气体测量室,其可填充含有待测量的至少一种分析物的测试气体,以及至少一个辐射检测检测器装置,其产生输出信号 分析物的存在和/或浓度的功能。 为了能够减少在气体测量室中冷凝的冷凝水的有害影响,根据本发明的气体测量室在测量过程之前被加热,使得气体测量室的壁呈现温度 位于测试气体的露点之上。
    • 90. 发明授权
    • Apparatus and method for measuring steam quality
    • 测量蒸汽质量的仪器和方法
    • US07381954B2
    • 2008-06-03
    • US11162967
    • 2005-09-29
    • Ayan BanerjeeChayan MitraMark A. Woodmansee
    • Ayan BanerjeeChayan MitraMark A. Woodmansee
    • G01J5/02
    • G01N21/39G01N21/3504G01N21/3554G01N2021/158G01N2021/354
    • Determination of steam quality by passing one or more laser beams through steam in a steam chamber and directly determining a total number of vapor molecules and a total number of water molecules based on absorption of radiation in the one or more laser beams by the water vapor phase and the liquid water phase in the steam. Specific volumes of water vapor phase and liquid water phase in the steam using the total numbers of water vapor and liquid water molecules are determined and the quality of the steam is calculated based on the specific volumes of the water vapor phase and the liquid water phase in steam. One embodiment comprises a narrow linewidth laser for measuring steam quality and another embodiment comprises multiple broadband lasers for measuring steam quality.
    • 通过使一个或多个激光束通过蒸汽室中的蒸汽来确定蒸汽质量,并且基于通过水蒸气相在一个或多个激光束中的辐射的吸收直接确定蒸汽分子的总数和总分子数 和蒸汽中的液态水相。 确定蒸汽中水蒸气相和液态水相的体积,使用水蒸汽和液态水分子的总数,并根据水汽相和液态水相的体积计算蒸汽的质量 蒸汽。 一个实施例包括用于测量蒸汽质量的窄线宽激光器,另一个实施例包括用于测量蒸汽质量的多个宽带激光器。